Temperature dependence of the thermal boundary resistivity of glass-embedded metal nanoparticles

F. Banfi; V. Juvé; D. Nardi; S. Dal Conte; C. Giannetti; G. Ferrini; N. Fatti, Del; F. Vallée

doi:10.1063/1.3673559

Temperature dependence of the thermal boundary resistivity of glass-embedded metal nanoparticles

F. Banfi, V. Juvé, D. Nardi, S. Dal Conte, C. Giannetti, G. Ferrini, N. Fatti, Del, F. Vallée

Coherence and Quantum Technology

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Abstract

The temperature dependence of the thermal boundary resistivity is investigated in glass-embedded Ag particles of radius 4.5¿nm, in the temperature range from 300 to 70¿K, using all-optical time-resolved nanocalorimetry. The present results provide a benchmark for theories aiming at explaining the thermal boundary resistivity at the interface between metal nanoparticles and their environment, a topic of great relevance when tailoring thermal energy delivery from nanoparticles as for applications in nanomedicine and thermal management at the nanoscale.

Original language	English
Article number	011902
Pages (from-to)	011902-1/3
Journal	Applied Physics Letters
Volume	100
Issue number	1
DOIs	https://doi.org/10.1063/1.3673559
Publication status	Published - 2012

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abstract = "The temperature dependence of the thermal boundary resistivity is investigated in glass-embedded Ag particles of radius 4.5¿nm, in the temperature range from 300 to 70¿K, using all-optical time-resolved nanocalorimetry. The present results provide a benchmark for theories aiming at explaining the thermal boundary resistivity at the interface between metal nanoparticles and their environment, a topic of great relevance when tailoring thermal energy delivery from nanoparticles as for applications in nanomedicine and thermal management at the nanoscale.",

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AU - Banfi, F.

AU - Juvé, V.

AU - Nardi, D.

AU - Dal Conte, S.

AU - Giannetti, C.

AU - Ferrini, G.

AU - Fatti, Del, N.

AU - Vallée, F.

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AB - The temperature dependence of the thermal boundary resistivity is investigated in glass-embedded Ag particles of radius 4.5¿nm, in the temperature range from 300 to 70¿K, using all-optical time-resolved nanocalorimetry. The present results provide a benchmark for theories aiming at explaining the thermal boundary resistivity at the interface between metal nanoparticles and their environment, a topic of great relevance when tailoring thermal energy delivery from nanoparticles as for applications in nanomedicine and thermal management at the nanoscale.

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SP - 011902-1/3

JO - Applied Physics Letters

JF - Applied Physics Letters

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Temperature dependence of the thermal boundary resistivity of glass-embedded metal nanoparticles

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